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Organic trace minerals for pets’ brain health

Submitted by aledford on Thu, 08/12/2021 - 11:24

Alongside the widespread growing awareness of our own health and wellness, there also seems to be a deepening interest in improving the overall health and longevity of our pets. With pets living longer and a large percentage of pets classified as obese, it comes as no surprise that we are seeing a rise in associated health issues, including osteoarthritis, diabetes, heart disease, hypertension, certain types of cancers and cognitive decline.  

How can we address some of these challenges, especially those related to cognitive function in pets?

1. Take a preventative, nutrition-based approach.

"Pet Gut health and immunity"

Providing proper nutrition is still considered one of the most effective and financially viable ways to decrease an animal’s disease risk. An important part of any animal’s health and diet is immuno-nutrition, which can be defined as the effect of providing specific nutrients — typically, a combination of certain amino acids, nucleic acids, vitamins and minerals — on the animal’s immune system.

With the direct link between a healthy digestive system and immunity, the importance of gut health cannot be overstated. Gut health, immunity and the microbiome have also been shown to be linked to cognitive health. Research in this area has proven that the gut and the brain communicate regularly through a highly complex interactive system. This highlights the important role of nutrition, not only for the growing and developing puppy, but for the aging or senior dog as well.

2. Optimize gut health by increasing microbial diversity.

"Pet microbiome"

Gut health can be improved and maintained in several ways, but increasing microbial diversity — as well as reducing pathogens and increasing beneficial bacteria, such as the Lactobacillus and Bifidobacteria species — is key. Adding prebiotics, probiotics and postbiotics to an animal’s gut health program has been well-researched and established as important for maintaining good gut health. Furthermore, products such as mannan-rich fractions of yeast (MRF) and certain fermentation solubles — including mannan oligosaccharides (MOS) — as well as nucleotides and branched-chain amino acids are being incorporated into pet food for dogs and cats at a growing rate.

  • Senior or geriatric dogs tend to have reduced concentrations of Bifidobacteria species, and studies of MOS have shown that they are correlated with significant increases in beneficial populations, which can help offset the negative effects of age on colonic health.
  • MRF have also proven to be beneficial in pet diets in several ways. They basically provide a source of attachment for certain pathogens and escort them through the digestive tract, preventing colonization and reversing dysbiosis. MRF also support nutrient utilization, help maintain digestive function and enzyme activity and work to control inflammation.

3. Support immunity and cognitive health in dogs and cats with antioxidants.

"pet omega-3 fatty acids"

We’ve looked at how immuno-nutrients affect gut health, but what impact do they have on the overall immune system? Trace minerals are essential in many metabolic and physiological processes, and using the organic, more bioavailable form of these essential nutrients has been proven to be beneficial in multiple ways.

Recent companion animal studies of Bioplex®and Sel-Plex® showed that, even when supplemented at much lower levels than their inorganic counterparts, these two products supported and promoted better trace mineral status, bone mineral density, growth and immune measures in both cats and dogs.

Certain trace minerals, including selenium, are also known to be important antioxidants. Since antioxidants can help minimize free-radical formation and oxidative stress, including them in pets’ diets is often considered an important part of any immune-nutrient strategy to help prevent and managed age-related health issues.

Some of the leading age-related health problems in pets include immune-related issues, joint health, cancer, diabetes and heart disease. Two other emerging concerns and interests for pet owners with older pets are cognitive health and function.

When it comes to cognitive health, there have been several studies linking antioxidants and their role in counteracting oxidative stress to potential improvements in cognitive performance.

It seems that impaired neuroprotection that results from oxidative stress has been implicated in neurodegeneration, and as such, inhibitors of oxidative damage — especially antioxidants — are considered very promising as potential preventatives. 

Selenium is considered to be not only a very powerful antioxidant but a major agent of immune stimulation as well. Several studies in humans, companion animals and other species have shown that selenium can reduce oxidative damage, optimize immunity and thyroid health, and even help prevent mental decline.

The problem with selenium is that its availability, utilization and efficacy depend on the dietary source or form in which it is provided. Inorganic selenium (i.e., sodium selenate or sodium selenite), the most widely used form of selenium, is not only highly toxic; it is also poorly absorbed, can induce DNA damage and can have very strong pro-oxidative properties, making it a poor choice as an antioxidant. Because of toxicity concerns, inclusion rates for selenium are regulated, and the suggested levels are set with an eye toward preventing a deficiency rather than supplementing for optimized immunity and health. As such, it is worthwhile to reconsider our selenium supplementation strategies and find ways to maximize selenium status that, ultimately, support cognitive health as well.

An animal’s selenium status can easily be improved by substituting inorganic selenium with the organic form of the mineral, such as that included in Sel-Plex. Studies of Sel-Plex have evaluated its potential antioxidant characteristics in several species, including transgenic mice, and the results have shown a substantial increase in glutathione peroxidase and significantly decreased levels of DNA and RNA oxidation. Poor selenium status, on the other hand, has been linked to an increased risk of heart disease.

Selenium has been shown to lower markers of inflammation, indicating that it may help decrease an animal’s risk of heart disease by reducing inflammation and oxidative stress, which have been linked to atherosclerosis. Since pets are also susceptible to certain heart conditions, implementing nutritional strategies to improve selenium status and, in turn, reduce oxidative stress and any subsequent inflammation could potentially have positive benefits for geriatric pets as well.

Conclusion

Thanks to the growing trend of increased awareness and interest from pet owners about the overall health and well-being of their animal companions, we can expect nutrition to play an even more prominent role as part of a preventive approach to maintaining pet health. The importance of the pet microbiome cannot be underestimated, as it serves as the foundation of a healthy GI tract, immunity and overall health through all life stages. When looking at antioxidants, the opportunity also exists to make seemingly small changes — like switching from inorganic selenium to an organic source — that can actually have a significant impact on the overall immunity, health and cognitive function of the animal. Immuno-nutrients will continue to be an important part of a targeted nutritional approach to caring for pets, but it is also important to look for product-specific research and validation when creating your pets’ health plan.

 

I want to learn more about pet nutrition.

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Aminoácidos a base de levadura

Submitted by eivantsova on Thu, 08/12/2021 - 10:31

La célula de levadura tiene muchos usos valiosos cuando se trata de producción agrícola. Los extractos de levadura - los componentes internos de la célula - son ricos en una amplia variedad de aminoácidos, que se pueden combinar con minerales para mejorar la biodisponibilidad de nutrientes.

A diferencia de la mayoría de las fuentes, que contienen un reducido numero de estos aminoácidos, Alltech Crop Science utiliza levadura extraída de Saccharomyces cerevisiae SP.1026, que proporciona, 18 de los 22 aminoácidos esenciales para el desarrollo de las plantas.

Los aminoácidos actúan como un agente quelante o complejante natural, uniéndose a los minerales u otras moléculas con las que se mezclan, lo que permite una mayor absorción dentro de la planta. Las plantas reconocen y absorben aminoácidos, llevando minerales a través de la cutícula como "pasajeros". Una vez en la planta, los nutrientes se transportan y liberan, mientras que los aminoácidos se utilizan de manera eficiente para el propio crecimiento de la planta. 

Los agentes quelantes sintéticos como el EDTA (Ácido Etilendiaminotetraacético) establecen enlaces muy fuertes con lo minerales. Por ejemplo, el EDTA unido al hierro ayuda apaliar la carencia de este mineral en las plantas, pero par que el EDTA libere hierro busca unirse a otro compuesto, como el manganese, por lo que al final se puede generar una carencia de este otro mineral. Estos agentes sintéticos se desechan y se acumulan en el suelo con el tiempo. Por el contrario, los aminoácidos pueden seguir siendo utilizados por la planta incluso después de haber abandonado su carga mineral. 

La biodisponibilidad es el grado y la velocidad a la que una sustancia es absorbida en un sistema vivo o alcanza su lugar de actividad fisiológica. Los minerales que forman complejos con aminoácidos tienen una carga neutra, lo que les permite pasar a través de la superficie de la hoja. Al llegar a la membrana celular, se absorben rápidamente, ya que los aminoácidos son fuentes de nitrógeno orgánico soluble en agua. Estas moléculas permanecen intactas mientras viajan a través de la barrera de la hoja con una interferencia mínima. Desde aquí, pueden ser absorbidos y utilizados por las células de las hojas o viajar al floema (el sistema vascular utilizado por las plantas para transportar nutrientes), generalmente a hojas jóvenes, flores, frutos u otras partes de la planta de rápido crecimiento. 

En la nutrición vegetal foliar, los complejos de aminoácidos, como los proporcionados por Alltech Crop Science, representan la tecnología más avanzada para la distribución natural de micronutrientes con una biodisponibilidad, tolerabilidad y seguridad óptimas. 

¿Cómo influye en tu producción?  

  • Una nutrición perfecta para la agricultura de precisión 
  • Capacidad para superar rápidamente las deficiencias 
  • Reduce el estrés causado por herbicidas 
  • Mantener el potencial de rendimiento de los cultivos 
  • Protege el suelo y el medioambiente 
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Metabolitos microbianos

Submitted by eivantsova on Thu, 08/12/2021 - 10:19

Un suelo sano presenta una estructura equilibrada con un Elevado contenido de materia orgánica, una Buena biodiversidad y una elevada disponibilidad de nutrientes. Mantener el suelo sano puede reducir la cantidad de productos que un agricultor necesita usar, ya que muchas de las necesidades nutricionales del cultivo ya se proporcionan a través de ese suelo. Esta mayor disponibilidad de nutrientes en el suelo también puede ayudar a las plantas a desarrollar raíces más fuertes y a volverse naturalmente más resistentes a los factores de estrés ambiental. Sin embargo, campaña tras campaña, los suelos pueden agotar estos elementos esenciales, provocando pérdidas de calidad y productividad. 

Para mantener un suelo sano y productivo, Alltech Crop Science cuenta con nuestros aliados invisibles: los microorganismos.

Alltech Crop Science selecciona y cultiva cepas bacterianas específicas que se encuentran naturalmente en suelos saludables. En situaciones de estrés, estos microorganismos producen metabolitos para protegerse y modificar su entorno. Alltech Crop Science extrae estos metabolitos, que juegan un papel clave en el equilibrio del ecosistema microbiano y en la interacción entre los microorganismos del suelo y las raíces. 

El uso de los productos Alltech Crop Science, enriquecidos con metabolitos microbianos, proporciona al suelo no solo la nutrición necesaria, sino también las moléculas capaces de estimular su entorno, creando un entorno menos competitivo para el desarrollo de microorganismos beneficiosos. Las poblaciones microbianas saludables ayudan a crear una fuerte relación simbiótica entre el suelo, las raíces y la planta, allanando el camino para una mejor salud y productividad de las plantas. 

¿Cómo influye en tu producción?  

  • Mejora el desarrollo y salud de las raíces 
  • Mayor disponibilidad de nutrientes 
  • Mayor resistencia a las tensiones ambientales 
  • Mejores cultivos 
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UN Food Systems Pre-Summit — Global Resource Use Efficiency for Protein Production in Food Systems

Submitted by amarler on Tue, 08/10/2021 - 10:30

In this episode of Ag Future, we revisit Alltech's affiliated session at the UN Food Systems Pre-Summit. Led by Dr. Vaughn Holder, ruminant research director at Alltech, the expert panel discussed ensuring food security for a rising population while protecting the earth's natural resources.

The following is an edited transcript of Alltech's affiliated session at the UN Food Systems Pre-Summit. Click below to hear the full audio or listen to the episode on Apple Podcasts or Spotify

Tom:                      Welcome to AgFuture, presented by Alltech. Join us as we explore the challenges and opportunities facing the global food supply chain and speak with experts working to support a Planet of Plenty.

 

                               The food we eat brings us together as families, communities and nations. It underpins our cultures, our economies and our relationships with the natural world. The U.N. Food Systems Pre-Summit was recently held to unleash the power of food to deliver progress on all 17 of the U.N. Sustainable Development Goals.

 

                               Alltech was selected to host a session during the Pre-Summit event, which featured a robust panel discussion around ensuring food security for a rising population while protecting the earth's natural resources. The following is the audio recording of their conversation, which was led by Dr. Vaughn Holder, ruminant research director at Alltech.

 

Dr. Holder:             Well, welcome folks. It's 1:30 (p.m.) here Kentucky time, from sunny Kentucky, and welcome to you, whenever you are and from wherever you are. I guess there’s some “Good afternoons” and “Good evenings” at least, that I know of, but probably a few “Good mornings,” as well.

 

                               So, I really appreciate folks getting onto this call. It's probably a pretty important topic that we’re discussing today as a part of this United Nations Food Systems Summit. This is the Pre-Summit, and we're talking about pretty important conversations that affect the future of food production in this world. So, I very much appreciate (that) everyone is here because they want to contribute to this conversation.

 

                               So, I'm going to give you a couple of ground rules for the discussion today. There's going to be a completely open discussion in the chat. That's a place where we can have conversations about the topic today. Let's keep it kind and let's keep it civil in the chat. We’re all here for the same reason, although we may sometimes have opposing viewpoints. So, bear that in mind. If you do have specific questions for the speakers, please post those in the Q&A section. We will try to get to some of those at the end of the webinar today, but if not, certainly, those conversations can be carried on offline as well.

 

                               Finally, there will be a recording of this webinar available. We’ll probably send that out tomorrow morning, early Wednesday morning, so that will be available as well.

 

                               So, I’m Vaughn Holder. I'm the ruminant research director here at Alltech. We submitted these series of questions or this topic to the United Nations for consideration. I’m very happy to be discussing this here today.

 

                               So, this is the U.N. Food Systems Summit, obviously. And what’s the point of this whole thing? Well, we're talking about the future of food systems to deliver progress on all 17 of the Sustainable Development Goals, and those will (all) need to be considered for all factors of this conversation, but we will be focusing very much on the Zero Hunger goal as we talk about protein security, as well as good health and well-being and responsible production.

 

                               We’re all looking to make healthier and more sustainable and equitable food systems — and very importantly, this all has to be evidence-based and (can only be accomplished by) taking scientific approaches to these transformations. This is what we're trying to do: We’re trying to ensure that we can provide for the nearly 10 billion people that we expect to have on this planet in 2050. So, (that’s) no small task at hand for us. (These are) really important discussions, and it's taken seriously.

 

                               So, just to break down, very briefly, what the topic covers here, we’re talking about global resource use efficiency for protein production systems. We're talking, really, about using what we have available to us to create protein in the world. Right? We're talking about the fact that we only have one planet, we have limited resources on that planet, and how shall we be distributing the resources that we have available to us to best serve the food security of the future? That’s what it’s all about.

 

I’ve gathered a panel of people that are much more qualified than I to address this topic. We will go through them one by one. Sara Place, chief sustainability officer at Elanco Animal Health — welcome and thank you, Dr. Place. Dr. Tryon Wickersham from Texas A&M has studied protein metabolism almost all his life, I imagine. Welcome, Dr. Wickersham, and thank you. (Next), Amanda Radke — we wanted to have some representation from the producer side of things, (which is) very important, with so many people all over our planet being involved directly in production agriculture. But she’s also a very busy lady. She’s an author of materials online, of blogs, but is also a children’s author of very good children’s books. So, Amanda, thank you and welcome. And finally, Dr. Jude Capper, chair in sustainable beef production at Harper Adams (University) and a sustainability consultant. Again, welcome and thank you, Dr. Capper.

 

                               So, the point of this is to have a discussion and not a slideshow. So, I am going to discontinue those right now and will start the discussion. I think we talk a lot about that 9 or 10 billion people (who will be on the planet) in 2030, but I think it serves us well to start the conversation with where we actually are right now and understanding what protein security actually looks like in the world right now. It’s very important we start there before we start to decide how we want to change our production system.

 

                               So, Dr. Capper, if you would come off mute and start this discussion for us, please. Where do we sit as far as protein security? Do we have a false sense of security right now?

 

Dr. Capper:             That’s a really good question. Thank you. And it’s a real pleasure to be here and involved in this discussion today. Yeah. We’re at quite a crossroads now in terms of what we do, what we choose to eat. And from the start, I think it’s very clear that there is no one-size-fits-all (approach), whether we’re talking about global diet, starch-free choices or even production systems. Frankly, we’ve got as many livestock production systems in the world as, almost, we do producers. So, to assume that we’re just talking from a U.S. perspective, a European perspective, as I am at the moment, (that) is untrue. We have to think globally but act locally, as it were.

 

                               We certainly know, to be fair, that ruminant livestock do have an impact on greenhouse gas emissions. According to data from the FAO, for example, approximately 14.5% of our global greenhouse gas emissions come from ruminant livestock. But we’ve got to think a little bit more deeply than that and think about the nuances. So, for example, it’s important to recognize that a sizeable number of our global population rely on livestock absolutely for their income, for their health, for their education. So, we have billions of small holder farmers across the globe who absolutely rely on livestock. And livestock give us more than just food. So, obviously, they provide us with protein and energy and essential fatty acids and minerals, but they always, also, have huge roles in terms of byproducts, in terms of pharmaceuticals, manure, leather, etc., etc.

 

                               So, at the moment, we know that we have a sort of dichotomy going on. We have wealthier nations who could be considered to be consuming too much protein per person per day, whether animal or plant-based — just an overconsumption of food. And then we have a huge portion of the globe who have less food available, whether protein or not. And I guess what I would really like to see, going forward, is a recognition of two things. One — and I think Dr. Place is going to talk about this later — is the best use of land on a global basis, and livestock have a huge role to play in that, but also the recognition that the reason that we have livestock is to produce protein. And frankly, it makes me really angry when I see quotes all the time saying, “Livestock use X amount, but they only give us 12% of our calories,” or 20% of our calories, or 5% of our calories, depending who's quoting it. We need livestock for that high-quality, affordable protein — affordable, I should say, to many of us in the developed world. So, we’ve got to think about strategies and innovations across the globe that are appropriate and applicable to all livestock systems so that we can improve.

 

Dr. Holder:             Yeah. So, (there are some) really important conversations in there, and that’s usually the right metric, Dr. Capper, to measure these things, right? Because we often talk about producing a certain amount of food per amount of land or per amount of greenhouse gas or whatever it might be, but the amount of food is not necessarily what matters — the kilograms of food that’s produced. It’s about limiting nutrients, right?

 

                               And we’re focusing very much on protein right now. And when we correct — some of the papers that have recently come out (are) showing that when we correct for poor digestibility and poor amino acid composition in some of our plant proteins, we go from having a world that is mostly protein-secure to having 105 out of 190-something countries being protein-insecure at the current moment. So, I think these are important conversations: what metrics we use to discuss our food systems of the future. It's not necessarily how many kilos of a certain thing we can produce. We’re chasing nutrients. I think that’s important to discuss.

 

                               Dr. Place, something that Jude mentioned about this idea of humans and animals competing for the same food sources, obviously — because we do get the discussion coming on a lot of the time that, “Well, if we just repurpose the food that we’re giving to the animals, we could feed a lot more people with that.” You’ve looked at this pretty closely in some of your research and some of your work. Do you want to talk us through that a little bit, Dr. Place?

 

Dr. Place:                Yeah. Yeah. Thanks, Vaughn. And again, thanks for having me this afternoon, this evening. So, yeah, I think that’s a really great question and a fair critique that folks put forward, of “Hey, you know, let's think about this from a resource competition perspective and really dig into this idea of: Is there competition directly between animal feed and human food.” Right? This idea — could we nourish more people if we fed some of these plant sources that we’re feeding to animals to humans?

 

                               And so, if we take a step back and we look at that from a very large macro perspective — there's a nice analysis that was done by the U.N. FAO looking at this, (a study) of all domesticated terrestrial species, right, everything from poultry to sheep to cattle around the world, and analyzing: What is the actual global total amount of feed that these animals are consuming? It’s around 6 billion tons of dry matter every year. What they also found is that 86% of this is actually not directly in competition with human food. And so, there’s some interesting nuances there. One is that it varies depending on where you are. I think what you just mentioned is really, really important, right? We talk about these things at an aggregate level sometimes, and at a global level, and that’s good — it’s good to ground ourselves — but also, on the ground, realities can vary.

 

                               And the other thing is (that) this changes depending on what species we’re talking about, right? So, cattle, sheep and goats, the ruminant animals that tend to emit methane gas and tend to get more of the attention with regard to climate change, are actually also the animals that compete far less directly with human food. Right? (And) that's just because of their unique digestive system. The animals that tend to not emit methane, right, because of their digestive system — poultry species and swine — are the ones that compete more directly with human food just because they’re monogastric omnivores, simple-stomach omnivores, just like we are, right? And so, they tend to eat more high-quality protein sources directly that, potentially, could be competing with human food.

 

                               So, I think that's just that important nuance: that there is competition, but it's probably not (at) as high a degree as some folks think. And there is this variation across species. And I think the other part of that is when we think about that global amount of food, a lot of it is actually byproducts or coproducts of human food production. Right? There are so many examples all over the world.

 

                               If we were — just to think of an example, here in the United States, where we have a lot of dairy production, in the U.S., (in the) state of California, we also have a whole lot of crop agriculture that takes place in that state. So, everything from orange production to almond production and dairy production is happening right there. And what's interesting is all those industries are really tied together, right, where we have oranges that are going for orange juice and making citrus pulp as a byproduct, (and) that ends up in the diets of dairy cows. Or things like almond hulls, right? When we're processing almonds, whether people are eating them directly or producing almond milk, quite frankly. So, I think that's a great example of — I mean, sometimes, in our minds, (we) formulate these things as “either/or” when, really, they’re all connected, if that makes sense.

 

                               So, if we think about it from a sustainability perspective, it’s saying, “How (can) we strengthen those ties where it makes sense?” Because that is essentially cycling nutrients through the system. And that’s really one of those key benefits of having livestock in our food systems: They’re able to take the parts of plants that we cannot consume, that are human-inedible, and essentially upcycle them to higher-quality products, as was mentioned earlier — nutrient-dense foods — and extract more nutrients from those. And hopefully, we're able to tighten those nutrient cycles and minimize pollution, because that's what we're also concerned about as well.

 

Dr. Holder:             Yeah. It's a really good point on connecting these systems together. Sara, do you think that — you know, we’re sort of talking, as an industry, in terms of, “It’s plant ag versus animal agriculture,” and I think that we need to look at the fact that there's a place for both. We can get a significant proportion of our protein coming from plants directly, which is a very efficient way of doing it. I think animal protein can fill in some of those gaps in terms of nutrients that might be missing from a plant-based diet. And these things are compatible, I would say, rather than saying, “It's one or the other.”

                              

                               But certainly, in terms of those raw materials that we’re utilizing — like, (if) we take all those raw materials off of the food production stage, we are going to end up being in a nutrient deficit as a planet, as a people. And (if) you take all that protein production off the table, I wonder what we might think of the consequences of some of those — where did those raw materials go, if we're not putting them into animal production? I wonder if you have any thoughts on that.

 

Dr. Place:                Yeah. So, I think that is a very good point, Vaughn, as we think about all these choices we can make, the consequences of different choices. So, my mind always goes to (the fact that) it's a mass balance. We're creating this certain amount of material, again, from the plants. Roughly, a global average ratio is for every 100 kilos of human food we get from crops, we generate 37 kilos of byproducts. So, the question is: What happens to those byproducts? Does it make sense to, in many cases, feed them to livestock and, again, essentially extract more energy and nutrients from that plant material (and) also generate manure that can then be used to cycle those nutrients back to crops? Or does it make sense to you to combust them or put them in a landfill or whatever the choices are?

 

                               So, I think it's all about those choices, and the right answers are going to be the same anywhere. But I think it's just good to ground ourselves in (the fact that) natural ecosystems don't typically just have plants; they have a whole bunch of trophic levels. The same is true in our agro ecosystems. That's why we have these things working together, quite frankly. And again, that nutrient density piece that you mentioned is super important. The proteins are not all equivalent across the board. I know we have more of an expert here that could speak on that in Dr. Wickersham than myself.

 

Dr. Holder:             Yeah. That’s a good transition, Sara, to Dr. Wickersham. Dr. Wickersham, you’ve studied protein metabolism quite intensely. And I've followed your career for a while, but (some) recent research you've been working on this concept of protein upcycling that ruminants do. Can you comment for us a little bit on looking at ruminants’ contribution to protein production and the unique way in which they do it? And perhaps also comment a little bit on what types of things do actually contribute to protein supply in our world and what types of things don’t.

 

Dr. Wickersham:      Thank you. Thanks for having me. When we look at ruminants, the real value they bring — and Dr. Place talked about this already, to some extent — is they can be low-quality sources of amino acids, so amino acids that don't necessarily meet human protein requirements for essential amino acids, or what are more recently being called digestible indispensable amino acids. And those cattle — or ruminants, to be specific — through their relationship with the microbes, can take nonessential amino acids, or even non-protein nitrogen, and the microbes in the rumen can convert that, and the animal can use that to synthesize meat protein or milk protein that we, as humans, can then consume. And those sources of protein are highly digestible and do a great job of meeting our amino acid requirements.

 

                               If you look at the FAO’s homework on amino acids and the Digestible Indispensable Amino Acid Scoring System, you look at some cropping systems — like corn will be the primary example. They do a very poor job of less than 50 on the DIAAS score. Whereas, (when) you look at animal sources of proteins, they’re all in excess of 100, meaning they really positively contribute to our amino acid supply.

 

                               The other real big advantage about the production system is they can utilize grasslands as well as all the coproducts that Dr. Place talked to you about. Particularly in the United States, one of those will be distiller’s grains. So, whether you think (it’s) right or wrong, (the United States) creates a lot of fuel from corn, and a tremendous byproduct that we (would) have to eat a lot of would be distiller’s grains. (If) we're not feeding to ruminant animals, the other alternatives incur a large environmental cost in terms of burning them or using them for fuel or depositing them in landfills, so feeding them to ruminant systems really provides a lot of benefit.

 

                               The other thing to kind of think about is, when we think of protein supply, if you look — at least to my knowledge, most ecosystems are not nitrogen-limited, in general. And so, it's kind of fitting that when we look at human food supply, one of the challenges we have is deficient amino acids in our diet and meeting those amino acid requirements. So, really, any food source that can take low-value sources of nitrogen or can take nitrogen out of the air and convert that into something that humans can consume is a real benefit.

 

                               Consuming a mixture of plant and animal proteins probably provides the best way forward. And a diet that blends those two together well would be best for meeting people's amino acid requirements.

 

Dr. Holder:             Yeah. I'd say that's pretty important — and that metric, I think, applies to everything. We have to look at what is being used to produce the protein and whether it’s creating new protein or not. I think fermentation is one of the big ones, (and the fact that) this fermentation that occurs in the animals, which ruminants are able to harness very nicely, but there's also fermentation that we can harness the power of outside of animals to convert non-protein nitrogen to edible protein. So, those types of things are contributing to protein supply.

 

                               Obviously, nitrogen fixation is the big one in plants. The fact that plants can convert atmospheric nitrogen — with the help of some friends — to things that we can eat is, really, the source of most of our protein that we have available to us, whether it goes through an animal or not.

 

                               But I think that when we do consider the future of food production, I think these are the things we have to step back and say, “When we’re looking at the future of food production, do the things that we are proposing contribute to the protein supply that we have available to us on the planet, or are they repackaging existing protein from existing sources into another form?” Because that's fine, and there's nothing intrinsically wrong with that. We do that in meal preparation all the time. But we need to not confound if that's not supplying additional protein.

 

Dr. Wickersham:      In the United States, we're probably one of the most dependent on human-edible sources of protein in our beef production system, for sure, anyway. When we look at the value of those systems, even in the United States, to contribute protein and non-protein contributions — remember, we use to measure that — and we generally get about three times as much protein out of that system — human-edible protein that’s a high-valuable source — than we put into it. So, basically, we’re going to return it 3:1, and that seems to be a real positive improvement.

 

                               In my opinion, the other thing is — the result of those feeding systems is (that) we decrease the amount of methane produced per kilo of product to your formulation (of a) better diet. That’s not to say every system needs to go to that, because not everybody has the resources, but it's something to keep in mind, is that repackaging you mentioned.

 

Dr. Holder:             No, that’s a great point. I want to shift gears for just a second and bring in a little bit of a human element into this. Amanda, you’re a rancher. You’re a beef producer. I want to get a little bit of your perspective, honestly. Dr. Place was saying 1.3 billion people in the world rely on agriculture either directly for nutrients or income. So, we're talking about a large human burden, if we're talking about removing animal production from our food systems. Can you talk a little bit about what sustainability means to you as a rancher and as a producer and the types of things you're doing to address and to look at your sustainability?

 

Amanda:                 Sure. Well, it’s a pleasure to be here representing the independent cattle-ranching community. I'm also a mom of four beautiful children who benefit from the nutrient-dense products that we raise here on our ranch. What sustainability means to me is, I guess, to be truly sustainable on the land. I think farmers and ranchers strive to be much more than that. We strive to utilize our natural resources to the best of our abilities. And one of the things that I hear from the ranching community is that they wish the naysayers could see it from our perspective. So, we can talk all day from the 30,000-foot view of what the future of food really looks like, but I think a better testimony would be if you could see what's outside my dining room window right here in South Dakota.

 

                               So, there's no-one-size-fits-all approach to producing food. There's not a one-size-fits-all approach to the best diet on the planet. And there’s certainly not a one-size-fits-all way to manage the land, because so much of the landscape is vastly different. So, what I can grow here on the rolling hills in South Dakota varies greatly from what can be grown on the California coast or somewhere all the way around the world.

 

And so, right here in South Dakota, like I said, we have rolling pasture hills with native grasslands that have been growing here for hundreds of years. The roots of these plants go down hundreds of feet, (and) that's capturing carbon; that's keeping cover on the soil. When cattle graze on my pastures here in South Dakota, they’re aerating the soil with their hooves. They're naturally fertilizing that landscape. They are part of that water cycle. They’re upcycling that cellulose material that would otherwise sit and be underutilized, and they are upcycling it into nutrient-dense beef and hundreds of life-enriching byproducts, as well, that would have a great environmental footprint if we were to replace these items with synthetic options.

 

Not only that, but any landowner understands that there are principles to maintaining soil health that we need to follow to maintain our landscapes. That includes maintaining soil covers. So, the fact that my pastures stay covered year-round, like I said, does capture that carbon, but it also protects wildlife habitats. (There is) limited disturbance, so minimizing tillage and trying to keep cover on that soil by planting cover crops — I can tell you it's an amazing thing to see, in between rows of corn, when you plant cover crops, which might be turnips and radishes, to see a cow go in and pick up a big turnip and eat it in the fall and know that they're adding nutrients to that cropland, as well, when they are eating some of these cover crops that are going in our fields.

 

                               Also, we believe in maintaining the diversity of the soil and mimicking nature as much as we can. So, that means cool- and warm-season grasses, broadleaf plants — again, those cover crops. And then we practice things like rotational grazing, where we try not to overgraze, so we will move cattle from paddock to paddock to promote new growth. And one thing that's not talked about enough is the fact that when there are ruminant animals on the landscape, they are reducing the dead brush, promoting new growth and, ultimately, reducing the spread of wildfires. And so, often, we make the mistake of thinking, if we leave the land alone and don't touch it, it would be better off environmentally. But when we can utilize the landscape by putting ruminant animals on these lands that are too steep, hilly or rocky for modernizing our farming, we can create and produce a nutrient-dense product that's packed full of protein and help to enhance human life around the world.

 

                               And so, the final note I want to share is that we're being told constantly that we can live without animal proteins, and yet, consumers around the world are expected to increase their meat consumption by 1%. And one thing I'm really mindful of, as a producer in the United States, is that around the world, where the growing middle class continues to expand to different places for the first time ever, what's the first thing people do when they have a little extra disposable income? They add animal fats and proteins to their rice-and-beans diets. Now, why is that? Because this is a rich source of protein.

 

                               So, I think, at the end of the day, farmers and ranchers are trying to serve people in the best way possible. And for us to maintain our freedoms to make the best dietary choices as individual, sovereign beings, we need to continue to have a wide variety of production practices, including beef production, to feed a hungry planet and meet the nutritional needs of people here and around the world.

 

Dr. Holder:             Yeah. Amanda, that's a great point that you make about nations, when they become more wealthy, is the fact that they start to look toward getting more animal-type proteins into their diets. And it makes a really good point, is that we’ve got to be really careful, because we’re typically discussing these types of topics — the U.N. Food Security Summit is looking at the future of food from the first-world countries’ perspective. I think we’re in a lot of danger of applying things that we might want to apply on first-world countries and the knock-on effects that they might have in some poorer countries.

 

                               I'm not going to put this to a specific person on our panel, but I'd be really interested in hearing (your) thoughts of how we take a summit like this and look at it more granularly. Jude, you spoke about thinking globally and applying it granularly on the ground. I mean, that’s obviously pretty important, because none of this stuff applies universally across these systems. The objectives are different across these systems. If I wanted to go vegetarian, I could afford to probably figure out what amino acids I might be missing and what macronutrients I might be missing and be able to balance the diet, but a lot of people don't have the means to do that in a lot of places. So, certainly, (I want to) open up this question to the panel and see (your thoughts on) how do we think about this in terms of — from an international perspective, from the U.N.'s perspective?

 

Dr. Capper:             If I can jump in here, I think that's a really, really good point. As we’ve seen from the chat, there are a lot of global languages (along the lines of) “Everybody knows this happens” and “Everybody knows that happens,” and it’s really, really important to do more research to understand (that) a livestock farmer in Kenya with two cows is absolutely not the same as a rancher with 1,000 cows. They’ve got different challenges. They’ve got different infrastructure. They’ve got different soils, different climate, different levels of income. Yeah. They’re all of these things.

 

                               I've done some work with some of the NGOs or charities that supply livestock and information tools and technologies to some of the smallholder farmers in the world, and the difference that a single cow can make is absolutely astounding. There's a quote that I often use that always makes, sort of, tears come to my eyes, to a certain degree, which is from a lady who was helped by the charity Send a Cow, and she's now about same age as me, and she’s a bank manager in Africa, but she says that she couldn't have become a bank manager, she couldn’t have got that job, she couldn’t have had that education, except for the fact that her family was given a dairy cow unit 20-odd years ago. So, just the income, the food, the improved health, the ability for those kids to go to school and get that education is absolutely huge. And we can’t ignore that based on the rhetoric that we apply to larger farms in more industrialized areas of the world.

 

                               And so, there is no one size fits all. There is no, “Oh, if you just do this, if you just feed this, if you just hole your soil like this, it will apply on every farm across the world.” It’s simply not possible. And so, one of the things that I would really like to see out of this summit — well, two things — one is the recognition that there are almost as many livestock farming systems in the world as there are livestock farms. You know, no two farms are the same. And therefore, we've got to find solutions, tools, technologies (and) management practices that can be applied across the globe with due regard for the culture, the region, the challenges, the climate, and then to have better outreach to apply them. Because if you're a farmer who doesn't have internet in Kenya, let's say, you can't just Google the best cows to have or the best way to apply my fertilizers. So, I think almost all of us on this are talking from a fairly privileged point of view, but we’ve got to think about it globally and then, as I say, act locally, have applicable appropriate solutions for every local farm in the world.

 

Dr. Place:                I would definitely agree with what you said. I think that’s what’s really key, is (that), sometimes, these discussions, they kind of devolve into the same talking points, and at the end of the day, it's like we forget that we share a tremendous amount in common. Everybody wants to, hopefully, have better development outcomes for people. At the end of the day, if we look at the 17 Sustainable Development Goals and think about what's really at heart in each one of those, there's a lot of agreement. And so, I think it's more of realizing there is no one answer, but also, livestock will be a part of the food system in 10 years, in 20 years and in 30 years. It is reality. So, how do we keep improving that system and hit on all those points that Jude just made, that the challenges in each area — everything from: How do you improve productivity in certain spaces? How do you improve people's incomes and livelihoods so they're not forced to make decisions that potentially lead to environmental degradation to take care of their family? The on-the-ground realities that some people are concerned about — that's not going to be solved just by, unfortunately, most likely, changing somebody's diet. It's going to be: How do you improve people's livelihoods where they’re at in all these different ways? And that is a bear of a challenge.

 

                               So, I think, coming out of this Pre-Summit, (one outcome), hopefully, is that recognition that, “Hey, there isn't going to be one solution. We agree on these high-level goals and recognize that how we're going to get there is going to be a whole bunch of different ways” — because what works for Amanda in South Dakota doesn't even work for a different rancher in the United States, because it's incredibly varied depending on what climate you have, what resources you have, etc., etc. So, that’s what’s really key here: it’s just recognizing the complexity of this and that it's just chock-full of value judgments. There is no single right answer in a lot of this.

 

Dr. Holder:             That's good point, Sara. And let’s, perhaps, change gears a little bit. You haven’t talked about the things that we can do. Obviously, you just indicated that those (options) are very wide and broad and varied. And as the agriculture animal science community are looking at, probably, a lot of these things that are applied differently in poorer countries than they do in (first-world countries) — maybe we should start there, Sara. Just to talk about the opportunities that we have for improving efficiency in the emerging markets and what that can actually do for the global efficiency and, also, the environmental credentials of livestock production.

 

Dr. Place:                Yeah. Right. There’s so many issues that fall under this really wide umbrella of sustainability. If we were to just narrowly focus, though, on greenhouse gas emissions for now — and as per the discussion, you know, what we know from the FAO, from their 2013 report tackling climate change through livestock, is that if we were able to take, essentially, the top tenth-percentile production practices and get those applied across the board (and) have that become the new global average of how we’re producing meat, milk and eggs around the world, we could actually lower greenhouse gas emissions (by) 30% and keep output constant.

 

                               So, what does that really mean in practical terms? It just means there's a big opportunity gap of just getting the things that we know how to do well to those folks on the ground and understanding: What are the real barriers? Because folks are just not doing these things voluntarily. There's barriers for why, but it's everything from how we make sure that we're delivering the right kind of feed to animals, improving their nutrition, their nutritional status — essentially, their welfare, because oftentimes, that's a hindrance for productivity of animals, and that is something that leads to more human nutrition but also (has) fewer environmental impacts per unit of milk, meat and eggs that we produce.

 

                               So, for example, there’s estimates that you lose essentially 20% of animal production around the world because of disease. So, everything from vaccinations, prevention and having that good nutritional health status, for example, is really, really important. (There are) so, so many examples there (of studies focused on this topic) — a lot of great work. I would tip my hat to the folks at, like, the Livestock Lab at University of Florida. They've done a lot of great work there just showing some simple ways of applying stuff that we kind of take for granted here in developed countries — technologies and innovations that we have readily available to us. How do we make sure that we can adapt that to other places in the world and improve their productivity, again, (and) hopefully have that whole benefit of livelihoods, nutrition and reducing environmental impacts all at the same time?

 

                               So, I think that's just one example. There's tremendous opportunity for us to lower environmental impacts and produce more high-quality nutrition for more people in the future.

 

Dr. Holder:             We share that, Dr. Place. Very well-said. Dr. Wickersham, do you want to talk about a little bit of the things — I know your program has focused somewhat on trying to reduce some of these emissions outputs. (Can you talk about) what's practical and what we've done, what we've accomplished, over the last few years? Any thoughts?

 

Dr. Wickersham:      So, I think it builds a lot on what Sara said. When you look at — even in the developing world, there's probably a greater response surface for improving sustainability or reducing methane emissions through some of the technologies we talked about, (such as) vaccination, improved reproduction.

 

                               One thing I’d like to address real quickly is whether or not the research is biased. And I guess, in my opinion — and it’s an opinion, as we’re offering opinions now — when I set about asking questions about the sustainability of beef cattle production systems in the United States, my goal is to — and sometimes, because I'm a rancher as well; we have a small cow-calf operation in Texas — my goal is to find out the actual answer. And then, when I know the answer, whether the answer is what I want it to be or not, I’ve shared that answer, and then I hope that we can improve. The goal is continuous improvement and mitigation strategies to try and help make animal-source proteins a more sustainable source of protein to meet human demands. And I think, if the answer wasn't favorable or is so unfavorable that we need to look at something different, I think it would be practical to go and look at something different and move to other things and move to other sources of food. Just because I'm a beef cattle nutritionist does not mean that I necessarily approach all things as though beef is superior. I recognize our weaknesses.

 

                               And the other thing is (that an) inherent problem with beef cattle, or an inherent challenge — challenge is a bit better word — is (that) ruminant fermentation is going to produce methane. And so, there's been some comments that (we) are working on ways to reduce methane. And I think that's been a continual challenge in all ruminant production systems for at least the last 50 years, because not only is it an environmental cost, but it represents a cost to producing, because that methane lost energy — energy that the cow can use to grow, can use to produce milk, to produce protein.

 

So, I forgot the original question, which isn’t uncommon with me, but yeah, I think a lot of people around the globe — I think New Zealand and Australia are really leading the way in doing genetic selection for animals that have reduced methane. We’re looking at some of the new techniques in ruminal metagenomics and the microbe and how we can select for different microbes to reduce methane production. I think those are all things the scientific community is trying to do in order to help make livestock production systems more sustainable.

 

Dr. Holder:             Thank you, Dr. Wickersham. Dr. Capper, again, I guess the same question for everyone: What are we doing — and what should we be doing — to make these protein production systems better as we look forward to accepting the U.N. Food Systems challenge of making better food systems? What do we have to do?

 

Dr. Capper:             So, to echo what both Dr. Place and Dr. Wickersham have said, it is about doing everything better. And that isn’t a cool, sexy, high-tech answer where, if you just use Magical Protein Powder A, you know, everything is solved. We do have to do absolutely everything better on every single farm.

 

                               But also, just to come back to a comment that was made in the chat, there’s an awful lot of research on this worldwide, particularly with ruminants, in terms of cutting methane emissions. So, we know that there are certain feeds that can be used. For example, I just read a paper today that showed that if we use oats as opposed to barley in dairy cow diets, we can cut methane emissions by 5%. There are vaccines that will target the actual bugs in the rumen that produce methane. There are various different companies producing feed supplements to cut methane while maintaining productivity. And there are even some sort of cow gas masks out there, which are leading to some really interesting innovations in terms of cutting methane.

 

                               And to come back to a comment earlier about the metrics — and there’s also some new research from Oxford University looking at using the best metric, and there’s a new one called GWP (Global Warming Potential), which looks at the fact that methane actually breaks down in the atmosphere over time. So, if this is adopted on a global basis, this is [inaudible] beef, for example, by about 50–60% overnight.

 

                               Now, that doesn't mean that anyone's done anything better in terms of farming, which is accounting for it in a different way, but we’ve got to use the best science. And I don’t say that because I'm a beef professor. I want the best science, whether it's good or bad for the beef production. I think we had the most clear, accurate, transparent science. And there's always a tendency for those who are opposed to animal ag to say, “Well, you’re biased. You would say that.” We all work in beef on this panel. Of course we are going to be pro-cutting greenhouse gas emissions, but not at the expense of livestock. We've got to have that balance, though, I think.

 

Dr. Holder:             Yeah. That’s so critical. And we would probably need another hour and a half, Dr. Capper, if we’re going to discuss that one. But having clear metrics is absolutely critical. Understanding the effect of ruminant methane on warming is absolutely critical, and that’s an ongoing discussion amongst scientists — and it’s not a settled discussion, to be quite fair. And that does make what we are setting out to do here quite challenging. Even looking at the process of sequestration of carbon and soils, this is something that we don’t often hear about from the animal ag side. We do know that animal agriculture can increase sequestration of carbon, (but that is) very, very difficult to measure and to measure accurately onsite. And so, that's a whole part of carbon cycle that you talk about, that methane is a part of that carbon cycle. And we don't treat it that way in our current calculations. And I'm going to leave it there, Dr. Capper, because as I said, that is a can of worms that needs another hour and a half.

 

                               Amanda, I want to leave it with you. We’re running out of time, but we do have a few minutes. From the producer perspective, what do we need to do to ensure a food-secure future?

 

Amanda:                 Yeah. I would like to share just some boots-on-the-ground thoughts from my role not only as a rancher but as a mom who has benefited from beef significantly in my own life.

 

                               So, I think, just to start, if we're going to reduce (how we choose) our diets to simply looking at the carbon emissions, then we need to truly compare apples to apples, and so, calorie for calorie, what beef has to offer is an incredible, nutrient-dense product. To get the same amount of protein that you could get from 180 calories in a three-ounce serving of beef, you would have to eat about 600 calories of broccoli or quinoa or peanut butter. And so, we need to really start comparing the water use, the natural resources used and those kinds of things to get that nutrient density that we get from beef.

 

                               Another thing, I think, that's largely ignored in the equation is (the fact that) there are lots of things that we do in our daily lives that maybe wouldn’t be essential to us surviving. So, whether that's having a companion pet that — also, emissions are (coming from) using things in our lives that are highly consumable and tossed. And even just the foods — not what we eat, but how much goes wasted. So, if we are truly going to eat our way out of climate change, I think the biggest two things that we can focus on are, number one, the fact that here in the United States, 40% of the food we grow here, meat or not, ends up in landfills. And so, if we want to focus on reducing our waste and respecting the harvest, I think that's critical. And the second part or piece of that that we need to focus on is distributing that food that would otherwise go wasted and getting it to parts of the world where food is more scarce. And so, those are two big things I would challenge the U.N. and any stakeholders in food production to really focus on.

 

                               On the flip side, like I said, as a mom — and I see in the comments here, there's a lot of folks commenting that we don't need animal fats and proteins in our diets at all, that we can subsist on plant-based diets, and I would again reiterate the fact that there's no one-size-fits-all dietary approach to achieving optimal health and nutrition.

 

                               As an example, here in the United States, our dietary guidelines for Americans pushed to reduce our consumption of animal fats and proteins like meat and dairy and have really pushed for an increase in consumption in grains, fruits, and vegetables. Now, even I, myself, as a rancher, really bought into that. And for years, I followed the dietary guidelines. I almost felt guilty about eating the beef that we were raising on our ranch. I tried to fill my plate with all the things the government was telling me to. I was overweight, infertile, depressed, and was trying my hardest to be as healthy as I could be. I did, like, what so many hundreds of thousands of people that I (know and) am a part of in some meat-centered communities have done, and I focused on a nutrient-rich diet that focused on meat. Within a few months, I had regained my fertility. I had three back-to-back healthy pregnancies and beautiful babies after years of infertility. And I'm living proof that just because someone else can thrive on a plant-based diet doesn't mean that everyone can.

 

                               And so, ultimately, every stakeholder in the food production system should be focusing on serving the needs of their customers, whether that’s raising almonds and broccoli or raising nutrient-dense beef. There is a customer that needs these products. And to truly be secure and to be free and to be able to make choices that best fit the needs of our families is incredibly important to having a happy, healthy food system and population, here and around the world.

 

Dr. Holder:             That's well-said, Amanda, and that’s really a theme of this entire discussion. There is never one-size-fits-all situation for everything. And to be honest, the science is never settled, and even the science of what (is believed to be) the ideal human diet is certainly not settled and is an ongoing social experiment. So, we follow that.

 

                               I think, from my perspective, I want to stop here. We are up against the time. I want to thank all of our speakers for being on here today. (This was) a really important discussion — a discussion that's just starting. I think that all options are on the table. Any time I have to address this topic, internally or externally, I keep saying all options are on the table. This is a challenge. We have over 50% of the country and the world (who) are currently protein-insecure. This is something that we can’t ignore, and the discussion needs to focus on how we feed this planet now, as well as moving forward into the future.

 

                               So, I think this is a good start. Really, it's all about choice. It's about maintaining the choice of all our people in the face of a very, very difficult challenge that we’ll get through together. So, I appreciate, again, (and want to say) thank you for the speakers. Thank you for the robust discussion in the chat. We’ll be addressing some of those as the days go past. Everyone, we appreciate (you for) getting on. Thank you so much for the attention. Thanks. Bye.

 

Amanda:                Thank you.

 

Dr. Place:               Thank you everybody.

 

Dr. Capper:            Thank you all.

 

Tom:                      This episode of AgFuture has featured a discussion from the U.N. Food Systems Pre-Summit around ensuring food security for a rising population while protecting the earth's natural resources. The Pre-Summit event was hosted by Alltech. I'm Tom Martin. Thanks for listening. This has been AgFuture, presented by Alltech. Thank you for joining us. Be sure to subscribe to AgFuture wherever you listen to podcasts.

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As the global population rises and becomes more affluent, more net protein is needed to match an increase in demand of almost 100% by 2050.

Mitigating heat stress in transition cows

Submitted by eivantsova on Tue, 08/10/2021 - 10:10

Heat stress on a dairy farm has far-reaching effects, impacting more than just the animals that are impeded by the rising temperatures. Negatively impacting dairy herd performance, where dairy farmers really feel heat stress hitting is on your production profitability. Underperforming cows produce less milk, which means less money.  

To effectively tackle heat stress on your dairy farm, you must first assess your current situation. You can easily do this with our Heat Stress Strategy Evaluation. 

There are numerous areas of every dairy farm where the effects of heat stress can be easily identified and, with the right management, effectively addressed. This blog is one part of a series that looks at these heat stress risk areas:  

1. Feed and Forages 

2. Calves 

3. Heifers 

4. Milking cows 

5. Transition cows  

In many regards, the impact that heat stress has on a dairy farm is an immediate production issue, affecting milk production. But, when we look at transition cows, there are also drastic implications for the farm’s future. A heat-stressed pregnant cow will be impaired when trying to provide the nutrition that their unborn calf needs, causing problems farther down the road.  

So, what is the best approach for transition cow management? What should you be looking out for when monitoring heat stress, and how can you best tackle the situation?  

Signs of heat stress  

When your transition cows are suffering from the heat, they will begin to act abnormally. Some tell-tale actions to keep an eye out for include:  

  • Decreased dry matter intake.  

  • Increased breathing rate and panting. This will lead to essential mineral losses.  

  • Reduced activity but less time spent lying down.  

  • Increased water intake.  

Some of these actions can lead to an increased rate of feed passage, so also be on the lookout for:  

  • Inconsistent manure.  

  • Acidosis.  

  • Increased lameness.  

  • Lower milk solids.  

Other than these more obvious signs that your animals are stressed, there are numerous internal issues that could also be occurring due to the higher body temperatures. These manifest as:  

  • Increased metabolic disease risk, such as respiratory alkalosis and metabolic acidosis.  

  • Altered placental function.  

  • Decreased mammary tissue growth rate.  

  • Lower circulating immunoglobulin level.  

As mentioned above, these issues ultimately lead to the unborn calf not getting the nutrition it needs. As such, transition cows suffering from heat stress can give birth to calves with a 4.5 kg lower birth weight.  

Housing and management  

A big part of managing heat stress in your transition cows is providing them with a comfortable resting area where they can escape the heat. Space is the operative word here, as your animals should have ample room at all points of the day and night. To ensure this:  

  • Keep stocking density in close-up pens below 80%.  

  • Provide at least 12–14 m2 per cow in the straw yard.  

  • Feed troughs should provide 75 centimetres per cow.  

  • Allow for free choice access to clean water with space for 10–15 centimetres per cow.  

Ventilation is also crucial in this situation. Where possible, open up the housing to allow for airflow and natural ventilation. Fans installed throughout the barn can also be very effective. These measures help to decrease humidity, which results in drier bedding and, subsequently, lower risks of mastitis and digital dermatitis.  

It is also advisable to install showers and drying fans in areas where animals congregate regularly, such as holding pens. By soaking and drying the cows in cycles, you can simulate the cooling effects of sweat.  

Feeding and nutrition  

When it comes to feeding, one simple but effective adjustment is to feed at cooler parts of the day, mainly evening and night. The right diet formulation is also essential to optimising your transition cow’s performance during heat stress. It is advisable that you:  

  • Maximise rumen function by using a good basal ration and live yeast.  

  • Select higher quality forages.  

  • Partially replace forage with high-fermentable fibre by-products, such as beet pulp and soy hulls.  

  • Use more digestible feed ingredients. These have lower heat production during digestion.  

  • Guarantee fresh, palatable, high-quality feed is always available.  

  • Ensure uniformity of mixed and delivered rations, minimising feed sorting and reducing SARA risk.  

  • Choose the right source of carbohydrates. This could be corn grain and fermentable starch or glucose-formed products, such as MPG, glycerin and maltodextrins.  

  • Aim for sugar at 6–7% dry matter.  

  • Consider adding dietary fat, such as a fractioned milk fat precursor, preformed fatty acids (C16:0) or omega 3 and 6 fatty acids.  

  • Supply enough ammonia to satisfy their requirements for rumen bacteria.  

  • Maintain rumen NH3 levels throughout the day to ensure optimal supply to the rumen microbes.  

There are a number of Alltech products that can also help you make the most of your feed during times of heat stress. Using Yea-Sacc® will help stabilise the rumen environment and optimise function, Bioplex® can offer better mineral availability and Sel-Plex® aids in immunity support.  

To help you easily keep track of all of this advice, we have summarised the key points in a useful, one-page document that you can download. Read and download it here.  

While effectively managing heat stress in your transition cows is vital for the current and future performance of your dairy farm, there are many other areas where it can challenge your productivity. To learn just how robust your management strategy is, and to gather advice on easily implemented improvements, fill out our Heat Stress Strategy Evaluation here. 

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Avoiding heat stress in milking cows

Submitted by eivantsova on Tue, 08/10/2021 - 10:00

It is well known to all dairy farmers that when the weather starts to get warmer, heat stress is never too far away. In both hot and temperate climates, a rise in temperatures can make a significant difference in the productivity of your dairy herd and the money going into your pocket.  

To begin preparing your farm to tackle heat stress challenges, fill out our Heat Stress Strategy Evaluation. 

Next, take a look at the information and guidance we have to offer. Over a series of five blogs, we are outlining the signs and appropriate management methods for heat stress on your farm, pinpointing the key risk areas:  

1. Feed and Forages 

2. Calves 

3. Heifers  

4. Milking cows  

5. Transition cows  

When it comes to the negative impact of heat stress on your farm, an area where you will see it most drastically is in your milking cows. Left unchecked, it can not only lead to a reduction in output and performance but also affect your animals’ health, ultimately causing a drop in your production profitability.  

So, when it comes to heat stress in lactating dairy cows, what signs should you be on the lookout for, and what actions can you put in place to address the problem promptly and effectively?  

Signs of heat stress  

When your milking cows are feeling the heat, there are many signs that can be observed with the naked eye. If you are worried about heat stress in your herd, be sure to be on the lookout for:  

  • Increased breathing (>70/hour). This is the cows’ attempt to reduce their body temperatures, but it also decreases the concentration of bicarbonate in the blood.  

  • Profuse sweating. While this moisture will cool the body by evaporation, it will also lead to a loss of sodium, potassium and magnesium.  

  • A reduction in saliva, resulting from the low levels of bicarbonate in the blood. This in itself leads to low rumen activity, a drop in ingestion by around 10–20% and, subsequently, ruminal acidosis.  

  • Prolonged standing and congregating, putting the animals at risk of diseases such as laminitis and lameness.  

When you look a bit closer, you will also notice some further internal effects, such as:  

  • Decreased milk production and milk fat.  

  • A high loss of bicarbonate in the urine, affecting the pH of the blood.  

  • Issues with reproduction and fertility, including silent heat, embryonic death and foetal abortion.  

Housing and management 

The key to managing heat stress in your milking cows is to provide them with the most comfortable surroundings possible. The animals should be housed in an environment that offers everything they need to alleviate the effects of heat stress.  

Hydration is the first challenge that needs to be addressed. Under normal circumstances, your milking cow will drink 3–4 litres of water per litre of milk produced. So, for a cow producing 30 litres of milk, she needs access to 90–120 litres of water per day. However, when it is very hot, water intake can rise to 250 litres. To accommodate this increased need, ensure:  

  • Water is consistently available to the cows, providing 10–15 centimetres of frontal space per cow in 2–4 sections of the barn.  

  • Troughs are cleaned regularly to improve palatability.  

As excess sweating causes the animals to lose essential minerals, it is important to integrate wetting and drying systems into the housing to simulate the cooling effects of sweating. This can be achieved using showers and fans installed at the holding pen, parlour and feeding bunk that operate in cycles. For these to be most effective, ensure:  

  • The cows’ skin is soaked with large water droplets for 30 seconds to 1 minute at a time.  

  • Soaking cycles every 5 minutes.  

  • Fans blow continuously at 3 metres per second.  

Finally, it is crucial that the cows have a comfortable resting area. Make sure to provide 10 m2 per head, increasing to 12–14 m2 for close-up cows.  

Feeding and nutrition  

A simple yet effective change you can implement to help reduce heat stress is to move feeding times to cooler parts of the day, allowing the cows to be comfortable while they eat.  

When it comes to diet formulation, there are many factors to keep in mind, including:  

  • Ensuring uniformity of mixed and delivered rations to minimise feed sorting.  

  • Using fresh, palatable, high-quality feed that will help maintain rumen function.  

  • Avoiding excess dietary protein.  

  • Reviewing the energy density of the feed and maintaining a safe forage:concentrate ratio (70:30) in order to limit NEB.  

  • Using fractioned and/or highly digestible fat sources for increasing dietary energy.  

  • Selecting highly digestible forages, such as cereal, grass and alfalfa silages.  

  • Choosing starch with slow degradation rates (e.g., maize vs. barley).  

  • Maintaining dietary sugar levels at 5–6%.  

  • Providing minerals lost through sweat at recommended levels: potassium (1.5–1.6%), sodium (0.45–0.6%), magnesium (0.35–0.40%).  

  • Ensuring the provision of key vitamins and trace minerals, such as vitamin E, selenium and zinc.  

Alltech also provides products that can be added to your milking cow feed to assist in optimising their performance. Yea-Sacc® helps to stabilise the rumen environment and optimise function, while Optigen® can increase nitrogen use efficiency.  

In order for you to gain quick access to all the information covered in this blog, we have summarised it all in a short, two-page document that you can download. Read and download it here.  

Outside of milking cows, there are many other areas of your dairy farm that can be negatively impacted by heat stress, costing you time and money. Our Heat Stress Strategy Evaluation assesses your current approach and suggests improvements for effectively tackling the issue. Evaluate your strategy here. 

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Managing heat stress in heifers

Submitted by eivantsova on Tue, 08/10/2021 - 09:55

All dairy farmers know that once the weather starts to get a bit warmer, it is time to start implementing your heat stress management strategy. Without a plan in place, your dairy cows are at risk of reduced performance and health issues. Of course, with these challenges come negative impacts on your production profitability.  

Thankfully, we are here to help. Our Heat Stress Strategy Evaluation will assess your current situation and outline potential improvements for your farm. 

Also, to help you make the most of your heat stress management strategy, we have compiled a series of blogs focussing on the five key heat stress risk areas on every dairy farm:  

1. Feed and Forages 

2. Calves  

3. Heifers  

4. Milking cows 

5. Transition cows  

Where most farmers see the impact of heat stress is in their milk production and the decreasing numbers when their cows’ performance is inhibited. Because of this, it is easy to research and gather plenty of advice, both good and bad, on combatting the effects of heat stress in your mature animals. However, information regarding how heat stress affects heifers is less easily found, but that does not mean that it is any less vital.  

Heifers are an investment in the dairy farm’s future, so neglecting their needs now will lead to problems for your production later. So, to ensure that you are taking the best care of your younger animals and optimising their potential, here is some information on signs of heat stress in heifers and how you can best address the issue.  

Signs of heat stress  

Some of the first indications of heat stress in heifers that you are likely to observe are changes in behaviour. You will notice the animals standing for longer periods and congregating more. This can be due to their bedding being too heat-absorbent and, therefore, uncomfortable.  

The next obvious sign is a drop in dry matter intake, which can be as much as 9%. The immediate effect of this can be a reduction in weight gain of up to 22%, but there are further, long-term implications too. A decreased dry matter intake impacts the animal’s overall digestion and, subsequently, the cow’s growth and development. This results in undersized animals with small udders that produce less milk.  

Other notable signs of heat stress include:  

  • Reduced bulling activity and conception rate.  

  • Blood acid-base imbalance, which can lead to ruminal (it is metabolic not ruminal) acidosis.  

  • Higher respiratory alkalosis risk.  

Housing and management  

There are many small adjustments that can be made to your dairy heifer housing and environment that can alleviate some of the stress that elevated temperatures can cause. You should make sure to:  

  • Provide adequate shade using tarps or roofing over resting area.  

  • Optimise ventilation and cooling.  

  • Ensure access to natural shade if the heifers are outside.  

Management of group sizes is also advised. Housing the animals in smaller groups can go a long way to minimising stress and competition at the feed bunk.  

Feeding and nutrition  

What you feed your heifers plays a huge role in managing the effects of heat stress. As mentioned above, your animals’ digestion can be impacted during this time, so it is essential that you optimise their diet so they can still get the nutrient content and energy they need to not only reduce heat stress effects but continue growing at the desired rate.  

When feeding, you should:  

  • Always feed ad libitum, ensuring the animals always have enough to eat.  

  • Ensure uniformity of mixed and delivered rations to help reduce sorting, lowering the risk of SARA.  

  • Never restrict access to feed or water.  

  • Shift feeding time to cooler parts of the day, mainly evening and night.  

As always, you should be using high-quality forage and digestible feed ingredients. Be sure to:  

  • Add dietary live yeast to improve rumen function.  

  • Use corn grain or fermentable starch.  

  • Have sugar at 6–7% dry matter.  

  • Eliminate any visibly mouldy of poorly fermented forage to mitigate any challenge from mycotoxins.  

  • Ensure ammonia supply for rumen bacteria to satisfy their requirements to maintain a consistent rumen NH3 level throughout the day.  

  • Provide pre-pubertal dietary CP of 14–15%.  

  • Provide post-pubertal dietary CP of 13–14%.  

  • Have overall soluble protein of >30–35% of the CP.  

Finally, you should make sure to satisfy the heifers’ requirement for minerals. These include:  

  • Calcium.  

  • Magnesium.  

  • Sodium.  

  • Potassium.  

  • Iodine.  

  • Manganese.  

  • Zinc.  

To make the most of your heifer diet, you can avail of some Alltech products that can help. Yea-Sacc® helps to stabilise the rumen environment and optimise function, while feeding Optigen® can increase dietary nitrogen density while maintaining consistent rumen NH3 levels and intake levels.  

To make all of the above advice even more accessible, we have laid out the key points on a one-page document that you can download here.  

Efficiently managing heat stress on your dairy farm, whether it be in your heifers or another area of your production, requires you to have the best insights and advice. Assess the effectiveness of your heat stress management and learn what you could be doing better with our Heat Stress Strategy Evaluation here. 

 

 

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Combatting heat stress in calves

Submitted by eivantsova on Tue, 08/10/2021 - 09:49

When temperatures start to rise, there is one thing on every dairy farmer’s mind: heat stress. The effects that heat can have on your dairy can significantly impact their performance and health, and ultimately your production profitability.  

The first step to addressing this issue is learning where you currently stand. See how well you are managing dairy heat stress on your farm with our Heat Stress Strategy Evaluation. 

To offer further assistance, by using our years of experience and expertise, we have published a series of blogs focussing on the key heat stress risk areas on your dairy farm:  

1. Feed and Forages 

2. Calves  

3. Heifers 

4. Milking cows 

5. Transition cows 

The plight of unchecked heat stress is well-documented, and farmers do not have to look far for advice on tackling the issue in their production animals. However, it is not just the working cows that feel the heat. Calves can also be impacted by heat stress, and while the effects of this may not immediately affect your production and profits, not addressing the issue in early life can have problematic consequences later on.  

So, what are the specific symptoms of heat stress in calves, and what can you do to help combat these effects?  

Signs of heat stress  

Many of the indicators of heat stress in calves can be easily observed without a thorough investigation. General abnormal behaviour can be a cause for concern. Make sure to keep an eye out for signs such as:  

  • Increased breathing rate with mouth open.  

  • Loss of appetite.  

  • Reduced movement.  

  • Increased standing time, lying less.  

  • Reduced milk intake.  

  • Reduced starter grain intake.  

  • Increased water consumption.  

These all point to the young animal being under stress. On closer inspection, you may also observe heat-stressed calves having:  

  • An elevated respiratory rate above normal, reaching highs of 24–36 breaths per minute.  

  • Dehydration.  

  • A body temperature rising above 39.5˚C.  

  • Reduced weight gain; this is due to both the reduced feed intake but also because the calf is prioritising its energy for body maintenance.  

Without intervention, these issues can drastically impact the health of the young animal. Untreated heat stress in calves will lead to increased cases of:  

  • Pneumonia.  

  • Scours.  

  • Morbidity.  

  • Mortality.  

Housing and management 

So, what can be done to help stop heat stress from becoming an issue for your calves? First, you must ensure that the housing you provide is optimised to provide relief from the heat. Often, traditional and commonly used housing and bedding resources can actually exacerbate the risk. For example, many farmers use plastic hutches that are ideal for protecting the young animal from the elements. But, in hot weather, these shelters absorb and retain heat, making them more uncomfortable than being out in the open. Similarly, many farmers use straw for bedding; however, this too retains heat and is undesirable in higher temperatures.  

The key to optimising housing is to prioritise good airflow, which will help to keep the young animals cool and comfortable. Some beneficial adjustments to put in place include:  

  • Elevating the plastic hutch off the ground to increase air circulation.  

  • Opting for shelters with ample headroom for good aeration.  

  • Placing large sheets of cloth above pens to provide shade and block out UV light.  

  • Using sand, sawdust (wood shavings) or rice hulls as less heat-absorbent bedding materials.  

  • Spacing out single-calf pens/hutches to allow air to move around them.  

  • Reducing stocking density in group pens and ensure all animals can rest in the shade.  

  • Regularly muck out pens so that calves can rest in a dry space.  

Feeding and nutrition  

As you can imagine, one of the most essential areas of your heat stress management strategy should be hydration. As mentioned above, calves feeling heat stress are likely to be dehydrated and, therefore, increase water intake. To effectively address these issues, you need to make sure that your calves are never left wanting or searching for a drink. Some steps you can apply on your farm include:  

  • Providing access to clean and fresh water in shaded areas.  

  • Making sure that water is clean and cool.  

  • Ensuring that calves consume all of their milk.  

  • Offering a midday electrolyte drink for more effective hydration.  

  • Providing a fresh starter grain every day.  

When it comes to feeding, timing is everything in high temperatures. Make sure to:  

  • Increase the morning feed volume, giving your calves the best possible start to the day.  

  • Delay the afternoon feed to the evening when temperatures are lower.  

Additional support can be found through additives incorporated in the feed. Alltech’s Bio-Mos® and Actigen® can both support calf gut function during periods of increased stress, ensuring that the young animal is getting the most out of its feed.  

The advice in this blog is summarised in a useful one-page document, providing you with all the critical information you need to combat heat stress in your calves. Download the summary here. 

Of course, heat stress affects many other areas of your dairy production, and you can never learn too much. With our Heat Stress Strategy Evaluation, you can learn just how effectively you are tackling heat stress on your farm and what improvements you can make. Evaluate your strategy here. 

 

 

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Tackling heat stress in feeds and forage

Submitted by eivantsova on Tue, 08/10/2021 - 09:21

It will be no surprise to dairy farmers that when temperatures start to rise, your cows can begin to feel the effects of heat stress. This is an issue that challenges dairy farms around the world, even those in more temperate climates. Left unchecked, heat stress will drastically impact your herd’s performance and production profitability.  

The first step in tackling this challenge is to assess your current approach. Find out how effectively you are managing dairy heat stress with our Heat Stress Strategy Evaluation. 

As further support, we have put together a series of blogs looking at the five main heat stress risk areas on any dairy farm:  

1. Feed and Forages  

2. Calves 

3. Heifers 

4. Milking cows 

5. Transition cows 

When establishing an effective heat stress management strategy, it is crucial that a dairy farmer considers every part of their operation that can be affected by rising temperatures. This means that not only should you look at the animals but what you are feeding too. Heat can alter the quality of the feed and forage, making it less beneficial and possibly harmful for the animal, making good harvest, storage and silage management imperative.  

But what are the signs that you should be looking out for, and what can you do to ensure you provide the best quality feed and forage to your herd in this stressful time?  

Signs of heat stress  

When it comes to assessing feed and forage for signs of heat stress, you need to observe these resources in two areas: in the field and in the clamp.  

In the field, heat- and drought-stressed plants are aware of how quickly they could die under these conditions. Because of this, they increase lignification in order to produce a seed head more quickly. This process lowers the plant’s digestibility and, therefore, the energy that an animal can take from it.  

When trying to identify heat stress in plants, indicators can include:  

  • A faster wilting time. This will lead to the plants having a higher % dry matter (DM).  

  • Visible mould and fungus. These can lead to a greater risk of field-formed mycotoxins and aerobic deterioration.  

While harvesting at the appropriate time can help you avoid these issues, heat stress can still affect stored feed and forages. Even throughout the different stages of the harvesting and silage-making processes, these materials can be subjected to temperatures that can cause damage.  

Like in the field, higher temperatures in the clamp lead to increased %DM and fibre, which will cause issues such as:  

  • Increased trapped oxygen.  

  • Poor consolidation.  

  • Poor fermentation.  

  • Greater plant and microbial proteolysis.  

  • Higher levels of protein damage.  

  • Increased fungal growth, leading to aerobic spoilage and mycotoxin risk.  

  • Greater risk of caramelisation (Maillard’s reaction), reducing the quality and energy of the silage.  

  • Increased ash level  

Some signs to be on the lookout for are:  

  • Malodours (caramel/tobacco/vinegar aroma).  

  • Silage darkening and leaf spots.  

  • Visible mould.  

  • Reduced palatability when fed to animals.  

Harvesting and management 

There are many steps that you can take to optimise your forage growth and yield when under the pressure of potential heat stress. For the most part, it is imperative that you get your timing right, for example:  

  • Monitor the crop and harvest when you see signs of dying begin to show.  

  • Cut grass/cereal early, before the stem is visible, for the desired %DM content.  

  • Consolidate well and quickly to avoid further heating and spoilage.  

  • Do not roll or sheet up overnight, limiting the air in the clamp.  

  • Ensure a rapid feed-out across the clamp face, limiting spoilage.  

Other factors to take into consideration include ensuring your soil has all of the required nutrients, as healthy soil improves drought tolerance, and using homofermentative inoculants or chemical additives in the clamp. These will help to counter aerobic spoilage issues. However, do not use L. buchneri or other heterofermentative lactic acid bacterial inoculants.  

Feeding and nutrition  

Along with managing your harvesting and storage, there are a few steps you can take when feeding the animals to make the most of your silage and avoid issues with heat stress. These include:  

  • Feeding in the morning and evening, when temperatures are lower.  

  • Pushing up feed 8–10 times a day, ensuring your herd has regular access.  

  • Disposing of leftover feed every day, mitigating the risk of your cows eating mouldy feed.  

Alltech also offers a range of products that can aid in combatting issues that arise in feed and forage due to increased temperatures. Mycosorb® can be added to feed as a mycotoxin binder, reducing mycotoxin absorption within the animal and the risk factors associated with the damaging effects of mycotoxins on its health. Mold-Zap® can also be used, as it is designed to inhibit mould growth, to retain DM and nutrient content, for less top spoilage, and it is also designed for less deterioration (DM loss).  

For easy access to the information provided in this blog, we have compiled a one-page summary for you to download. Read and download it here.  

Optimising your heat stress strategy is crucial for combatting the effects of rising temperatures on your dairy cows. There are many key risk areas to address, with feed and forage being just one. Fill out our Heat Stress Strategy Evaluation here to learn just how effectively you are tackling heat stress on your farm and what improvements you can make.  

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Престижний світовий студентський конкурс в області сільськогосподарських наук оголосив регіональних фіналістів премії «Молодий вчений Alltech»

Submitted by eivantsova on Mon, 08/09/2021 - 06:28

Переможці конкурсу «Молодий вчений Alltech» будуть нагороджені на конференції ONE: Конференція Ідей Alltech (ONE18).

 

[Лексінгтон, штат Кентуккі] - Через кілька тижнів студенти аграрних коледжів і університетів по всьому світу битимуться за шанс отримати найвищу нагороду за їх інноваційні дослідження. З усіх регіонів світу були відібрані фіналісти конкурсу «Молодий вчений Alltech 2018» (Alltech Young Scientist, AYS) - найбільший світовий конкурс в області сільськогосподарських наук для студентів і випускників ВНЗ. Конкурс, що проводиться вже 13 рік поспіль, включає номінантів з 83 університетів з 28 країн.

 

Регіональні фіналісти візьмуть участь у тижні відкриттів програми молодий учений Alltech, поєднаної з конференцією ONE: «Конференція Ідей Alltech» (ONE18), яка пройде 20 - 22 травня 2018 року в Лексінгтоні, штат Кентуккі, де вони представлять свої дослідження перед комісією міжнародного журі. Вони також отримають можливість для розвитку лідерських навичок, кар'єрного наставництва і розвитку в інтернет просторі. Призовий фонд включає: позицію на здобуття наукового ступеня Кандидата наук і премію в розмірі 5 000 доларів США для переможця-студента ВНЗ, а також позицію на здобуття постдокторського ступеня і премію в розмірі 10 000 доларів США для переможця-випускника ВНЗ.

 

Регіональними фіналістами-випускниками конкурсу «Молодий вчений Alltech» і темами їхніх робіт є:

 

Янлі Ліу, Північно-західний Університет Лісового та Сільського господарства, Китай, «Метаболоміка і протеоміка розкривають вплив фолієвої кислоти на ліпідний метаболізм в первинних гепатоцитах курей (фолієва кислота регулює ліпідний метаболізм за допомогою інсуліноподібного фактору росту-2, IGF2»

Мойзес Полі, Федеральний університет штату Санта Катаріна, Бразилія, «Інтеграція тихоокеанської білої креветки і тиапії нільської в систему біофлок при різній щільності популяції риб»

Зілі Гао, Університет Массачусетса в Амхерсті, США, «Білок теплового шоку 70 (HSP 70) - новітня мета нобілетіна і його метаболітів в придушенні раку товстої кишки»

Сахід Саламі, Університет Катанії, Італія, в даний час відвідує Національний університет в Корку, Ірландія, «Борошно з іспанського артишоку як новітній вид корму: вплив на показники у ягнят, функціонування кишечника і якість м'яса»

Регіональними фіналістами-студентами премії «Молодий вчений Alltech» і темами їхніх робіт є:

 

Євген Ремізов, Саратовський державний аграрний університет, Росія, «Антимікробні пептиди як основа розробки нових антимікробних ліків»

Шенфу Лонг, Китайський сільськогосподарський університет, Китай, «Додавання в раціон мікроводоростей, збагачених ДГК (докозагексаєнової кислоти) покращує характеристики тваринного виробництва, склад крові, якість туші, антиоксидантний статус і жирно-кислотний склад у бройлерів»

Жуан Бол, Університет EARTH, Коста Ріка, «Оцінка продуктів з індукованою резистентністю для поліпшення здоров'я кореневої системи і контролю над паразитичними нематодами рослин при комерційному вирощуванні бананів»

Рональд Тротта, Університет Кентуккі, США; в даний час відвідує Державний університет Північної Дакоти, США, «Вплив виду і кількості енергетичної добавки на перетравність клітковини і вироблення метану in vitro в раціонах, заснованих на костриці очеретяній»

«Конкурс« Молодий вчений Alltech »надає унікальний досвід для кращих і блискучих розумів наступного покоління лідерів сільськогосподарської науки», говорить Доктор Карл Доусон, віце-президент і головний науковий співробітник Alltech. «Регіональні фіналісти представлять свої дослідження світовій аудиторії, а переможці - студенти і випускники - отримають можливість стати частиною нашої глобальної команди.»

 

Для отримання додаткової інформації про конкурс «Молодий вчений Alltech», відвідайте сайт AlltechYoungScientist.com

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Престижний світовий студентський конкурс в області сільськогосподарських наук оголосив регіональних фіналістів премії «Молодий вчений Alltech»
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Новий метааналіз жуйних тварин від компанії «Alltech» стосується проблем постачання білка, вуглецевого сліду та прибутковості

Submitted by eivantsova on Mon, 08/09/2021 - 06:23

Напружена ситуація у глобальних поставках білка створює невизначеність як для виробників, так і для кормової промисловості щодо того, звідки постачатиметься білок цього року. Додайте до цього постійно зростаючий тиск на виробників для задоволення зростаючого глобального попиту на молоко та м’ясо, одночасно зменшуючи їхній вплив на навколишнє середовище та можливість залишатися фінансово життєздатними. Хоча досягнення балансу між цими, здавалося б, суперечливими цілями може видаватися неможливим, компанія «Alltech» оприлюднила дані нового метааналізу жуйних тварин, що доводить протилежне.

Результати показали, що «Оптіген®» (Optigen®), складова небілковий азоту, може замінити джерела рослинного білка та дозволити виробникам молока та яловичини одночасно покращити продуктивність тварин, зменшити їхній вуглецевий слід і підвищити прибутковість. Нові дані метааналізу, що вивчає вплив добавки «Оптіген» на молочних корів, базуються на результатах 17-ти досліджень, проведених у шести різних країнах, тоді як дослідження корів м’ясних порід базується на результатах 17-ти досліджень, проведених у дев’яти різних країнах.

«Відповідальний вибір постачальників білка для кормів для тварин є ключовим глобальним питанням у ланцюжку постачання худоби, а використання джерел рослинного білка в раціонах тварин може бути обмеженим залежно від наявності, нестабільності цін та пов’язаного з цим впливу на навколишнє середовище», – відзначив д-р Сахід Саламі (Saheed Salami), науковий співробітник «Alltech». «Ці дослідження метааналізу підтвердили, що «Оптіген» є реальним замінником джерел рослинного білка в раціонах жуйних, що призводить до покращення ефективності використання кормів, рентабельності та екологічної стійкості виробництва молочних продуктів і яловичини».

Основні висновки дослідження молочних корів:

  • Використання добавки «Оптіген» у раціоні молочних корів призвело до скорочення викидів вуглецю приблизно на 54 г CO2-екв./кг молока.

Якщо ці дані екстраполювати на річний обсяг виробництва молока, наприклад у голландському молочному секторі, це було б еквівалентно скороченню викидів вуглецю на 574 004 тонни СО2-екв. Таке скорочення викидів вуглецю становить 10% від загального запланованого обсягу зменшення викидів для секторів сільського господарства та землекористування, що вимагається урядом Нідерландів до 2030 року.

  • «Оптіген» частково замінив приблизно 21% соєвого шроту в усіх раціонах.
  • Споживання сухої речовини (DMI), споживання білків і споживання азоту зменшились завдяки «звільненню» місця в раціоні.
  • Надої збільшились, а ефективність використання кормів покращилася на 3% при раціонах з додаванням «Оптігену».
  • Ефективність використання азоту у молочних корів зросла на 4% завдяки покращеному захопленню азоту в рубці. В результаті цього зменшується екскреція азоту з гноєм на 12-13 г азоту/на корову/день.
  • Ці дані свідчать, наприклад, про те, що використання «Оптігену» може зменшити щорічну екскрецію азоту з гною з молочного сектора Німеччини в середньому на 17 028 тонн азоту, виходячи з річного обсягу виробництва молока.
  • Користь для екології, яку приносить «Оптиген», полягає в заміні сої та інших високобілкових концентратів у поєднанні з покращеною ефективністю виробництва.

Основні висновки дослідження корів м’ясних порід:

  • Метааналіз показав, як часткова заміна рослинного білка «Оптігеном» демонструє стабільне покращення приросту живої ваги та ефективності використання кормів м’ясної худоби.
  • Відзначено збільшення приросту живої ваги на 8% і покращення ефективності використання кормів на 8% із включенням до раціону кукурудзяного силосу, що посилює ефект «Оптігену».
  • Аналіз методом моделювання, заснований на цих перевагах, показав, що згодовування «Оптігену» 1000 головам великої рогатої худоби з метою набору кожною твариною 440 фунтів ваги дозволить:
  • Скоротити час до забою на дев’ять днів.
  • Знизити витрати на корм на 18 000 доларів США.
  • Зменшити вуглецевий слід комплексу з виробництва м’ясної худоби на 111,5 т CO2-екв., що сприяє зменшенню вуглецевого сліду у виробництві яловичини майже на 2,2%.

«Джерела рослинного білка є нестабільними; вони коливаються в ціні, і їхній поживний склад неймовірно нестійкий, тоді як «Оптіген» – їх протилежність і забезпечує стабільність у постачанні білка, який розщеплюється в рубці, що є дуже важливим для функціонування рубця», – відзначив д-р Вон Холдер (Vaughn Holder), директор дослідницької групи жуйних тварин в «Alltech». «Ці нові метааналізи як щодо корів м’ясних порід, так і корів молочних порід показують глибину наших досліджень в обох областях, а також можливість використання продукту в різних видах кормової сировині та в усіх географічних регіонах світу».

Як концентроване джерело азоту «Оптіген» займає менший об’єм у раціоні порівняно з іншими джерелами азоту, такими як соєвий шрот і ріпаковий шрот, залишаючи місце для більш сприятливих для рубця матеріалів, таких як корми, вирощені у власному господарстві. Це додаткове місце також може сприяти тому, щоб із раціоном надходило більше енергії.  У деяких випадках також можна знизити рівень сирого білка в раціоні, таким чином підвищуючи ефективність і зменшуючи ризик нераціонального використання поживних речовин. Ці дослідження підтверджують, що згодовування «Оптігену» забезпечує унікальні економічні та екологічні переваги для виробництва молочних продуктів та яловичини та позитивно впливає на наш ланцюжок постачання продуктів харчування.

Щоб отримати додаткову інформацію про «Оптіген» (Optigen) та дані метааналізу, відвідайте alltech.com/optigen

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Потреби в органічних мінералах у сучасних раціонах молочної худоби

Submitted by eivantsova on Mon, 08/09/2021 - 06:19

Більшість досліджень у годівлі молочної худоби, як правило, зосереджені на білкових і енергетичних потребах, в той час як потреба в мінералах часто лишається поза увагою. Проте, недооцінювання значимості мінералів може викликати появу таких проблем, як негативна взаємодія між мінералами в кормах і воді.

Типи мінералів

  • Цинк:

    • Важливий для більш ніж 200 ферментних робочих систем у тварин, які забезпечують вуглеводний та енергетичний обмін, синтез білків, метаболізм нуклеїнових кислот, цілісність епітелію, відновлення клітин, розподіл та використання вітамінів А та Е тощо
    • Необхідний для вдосконалення/роботи імунної системи та визначальний для клітинного функціонування таких клітин, як гетерофіли, базофіли, макрофаги та Т-лімфоцити
    • Важливий для загоєння ран
    • Важливий для розмноження завдяки його участі у статевому дозріванні, забезпеченні репродуктивної спроможності та визначенні якості сперми
  • Мідь

    • Складова ферментів імунної системи
    • Необхідна для підвищення еластичності сполучних тканин і кровоносних судин, а також підвищення міцності кісток
    • Необхідна для метаболізму заліза та дозрівання еритроцитів
  • Марганець

    • Кофактор ферментів у метаболізмі вуглеводів, жирів, білків і нуклеїнових кислот
    • Важливий для нормальної роботи мозку
    • Бере участь у формуванні колагену, рості кісток, утворенні сечовини, синтезі жирних кислот, синтезі холестерину та розщепленні білків
    • Важливий для правильної роботи імунної системи та загоєння ран
  • Селен

    • Важливий для правильної роботи ферментів та клітинних антиоксидантних систем
    • Бере участь у скороченні м'язів та роботі імунної системи
    • Важливий для розмноження

Форма визначає функцію

Розуміння різниці між органічними та неорганічними мінералами має важливе значення. При детальному розгляді органічних мінералів, або ж мінералів з структурою вуглецю, таких як Bioplex®, стає зрозуміло, що вони перебувають у такій самій формі, що і в кукурудзі, зерні чи кормах. Іншими словами, вони схожі до мінералів, які містяться в рослинах.

Виробничий процес мінералів Bioplex запатентовано. Він передбачає желатування мінералів амінокислотами та пептидами з імітацією рослинного матеріалу. Мікроелементи у складі Bioplex і Sel-Plex® забезпечують харчування мінералами у формах, найбільш подібних до тих, які природно містяться в їжі та кормових інгредієнтах.

Чому б просто не додати більше неорганічних речовин?

Внаслідок нижчої біологічної активності неорганічних мінералів при їх використанні виникає багато різних запитань, в тому числі і пов'язані з ними екологічні проблеми. Численні дослідження показали, що надмірне вживання мікроелементів може підвищити стійкість до антибіотиків у свиней, оскільки такі бактерії як Salmonella розвивають толерантність до високого вмісту міді та цинку.

Неорганічні мінерали можуть по-різному взаємодіяти між собою, зокрема, виявляти антагоністичну дію, що може перешкоджати нормальним біологічним процесам. Наприклад:

  • Високий вміст кальцію та фосфору може зменшити засвоєння марганцю до 65% (Wedekind і Baker, 1990; Baker і Oduho, 1994).
  • Надлишок марганцю погіршує засвоєння заліза (Baker і Halpin, 1991).
  • Надлишок цинку має антагоністичну дію щодо міді та марганцю (Vohra та Heil, 1969).

Оздоровлення молочних телиць: Bioplex у наукових дослідженнях

У дослідженні Pino та Heinrichs, опублікованому в Journal of Dairy Science 2016 року, автори порівнювали введення добавок мінералів Bioplex з добавками мінералів у сульфатних формах. Хоча раціон Bioplex передбачав меншу кількість мікроелементів, саме він викликав збільшення загальної концентрації бутирату та летких жирних кислот внаслідок прискорення розвитку мікрофлори рубцевого відділу шлунка. Молочні телиці також витрачали менше часу на їжу, що вказує на поліпшені смакові показники мінералів Bioplex.

 Існують й інші приклади впливу Bioplex:

  • 1993 року в дослідженні, проведеному в штаті Міссурі, було встановлено, що Bioplex Zn®, доданий у кількості 800 міліграмів на день, сприяв зменшенню кількості утворюваних маститних інфекцій.
  • Дослідження 2007 року, проведене Kinal, показало, що мікроелементи Bioplex зменшили кількість соматичних клітин, а також, що при їх використанні протягом перших 60 днів лактації вироблялося більше молока.
  • Дослідження, проведене Scaletti та Harmon 2012 року, показало зниження кількості Ecoli у молоці, а також збільшення його вироблення.

 Sel-Plex  у наукових дослідженнях

У дослідженні, проведеному Silvestre і Thatcher 2006 року, у корів, яким вводили добавку Sel-Plex, виявили поліпшення роботи імунної системи, адаптивного імунітету та зростання відсотка вагітностей.

Висловлювання "форма визначає функцію", особливо, якщо мова йде про мінерали, є важливим і правдивим. Alltech продовжує проводити дослідження в усьому світі, щоб показати ефективність впливу органічних мінералів на здоров'я та продуктивність тварин.

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Здоров’я починається з кишечника: вплив мікробіома свині

Submitted by eivantsova on Mon, 08/09/2021 - 06:06

Різноманітність мікробіома свиней або "екосистеми" їхнього кишечника змінюється залежно від відділу шлунково-кишкового тракту. Так, порівняно з більш сприятливими для мікробного росту відділами, деякі з них мають менш сприятливі умови і, як наслідок, збіднену мікробну різноманітність.

Різноманітність шлункової мікрофлори може завадити виконанню завдань сучасної виробничої практики, оскільки в деяких випадках призводить до виникнення нездорового дисбалансу, а, отже, - і можливого замкнутого циклу патогенної колонізації та реколонізації.

Для того, щоб вирішити проблему застосування антибіотиків у тваринництві, виробники повинні користуватися харчовими стратегіями, які включають додаткові заходи щодо покращення гігієнічних умов і умов ведення господарчої діяльності.

Під час нещодавнього вебінару, проведеного спільно з Pig Progress, доктор Річард Мерфі, керівник науково-дослідних робіт Європейського центру біологічних наук Alltech в Данбойні, Ірландія, обговорював питання оздоровчого харчування та відновлення мікрофлори кишечника у вирощуванні свиней.

"Забезпечення та підтримання здоров'я кишечника є складним завданням, для досягнення якого необхідно враховувати численні чинники, включаючи харчові, мікробіологічні, імунологічні та фізіологічні", - сказав Мерфі. "Коли здоров'я шлунково-кишкового тракту уражене, погіршується травлення та поглинання поживних речовин, зменшується засвоєння кормів, а схильність до хвороб зростає, що, зрештою, призводить до негативного економічного ефекту".

Урізноманітнення та відновлення мікробіома свині для посилення імунітету

Мерфі підкреслив, що різноманітність мікробіома відіграє вирішальну роль у здоров'ї кишечника, оскільки корисні мікроби утворюють у кишечнику захисний бар'єр, який запобігає росту патогенних бактерій, таких як SalmonellaCampylobacterClostridia й Escherichia тощо.

Мікробна різноманітність: ключ до здоров'я кишечника

Мерфі обговорив чотири способи відновлення кишкової мікробіоми:

  • Нормалізувати мікрофлору кишечника: забезпечити мікробну різноманітність
  • Змінити баланс: зменшити навантаження патогена
  • Перервати цикл: знизити антимікробну стійкість
  • Відновлювальне харчування: підвищити засвоєння поживних речовин

Одним із способів вирішення проблеми мікробного відновлення є використання харчової добавки, яка сприяє урізноманітненню та стабілізації мікрофлори кишечника. На сьогодні як функціональний інгредієнт для мікробного контролю використовують додавання мананнових олігосахаридів (МОС), виділених зі стінок дріжджових клітин.

"Під час ретельного дослідження впливу добавок МОС на здоров'я та продуктивність виявлено їх ефективність для поліпшення набору маси та засвоєння кормів, а також для захисту від патогенної колонізації кишечника", - заявив Мерфі.

Ефективність кормової добавки нового покоління активного концентрату МОС - Actigen - сьогодні доведена у численних університетських та виробничих дослідах по птиці та свинях.

 Оптимальна продуктивність свиней починається з кишечника

Змінивши загальну мікробну різноманітність кишечника, ми можемо спробувати відновити і оздоровити мікрофлору кишечника, тим самим зменшуючи патогенне навантаження, підвищуючи стійкість до патогенної колонізації та зменшуючи чисельність штамів, стійких до дії антибіотиків.

Наше усвідомлення того, як зміни мікробного складу шлунково-кишкового тракту впливають на здоров'я та продуктивність тварини-хазяїна, є визначальними.

Програма Antibiotic-Free від Alltech зі зменшення кількості антибіотиків підтримує європейських виробників, які мінімізують використання антибіотиків для своїх тварин, водночас підтримуючи їхнє здоров'я та продуктивність. Програма включає в себе профілактичну медицину та контроль за харчуванням з метою зниження кількості антибіотиків, використаних на свинофермах. Щоб дізнатися більше про Програму Antibiotic-Free від Alltech​, будь ласка, натисніть тут, звертайтеся до представника ДП "Оллтек-Україна" – Володимира Ткачика  (моб.: 050 387 34 52) або пишіть на адресу vtkachyk@alltech.com

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Наше бачення

Ми твердо впевнені в тому, що сільське господарство має найбільший потенціал для формування майбутнього нашої планети.

Нас надихає великий виклик, який поставив перед нами світ, – виробляти достатню кількість безпечної, поживної їжі для всіх, одночасно піклуючись про своїх тварин і зберігаючи нашу землю, повітря та воду для майбутніх поколінь. Наші природні ресурси можуть бути обмеженими, але людська винахідливість безмежна.

Планета достатку – це місія:

1. Підняти агропродовольчий сектор. Дуже важливо, що ми визнаємо здатність сільського господарства вирішувати кілька найважливіших проблем, з якими стикається наша планета – годування, добробут людей та тварин, а також збереження природних ресурсів. Ми робимо це, розповідаючи правдиві, але маловідомі  історії про пристрасних людей, які працюють в агропродовольчому секторі, щоб створити Планету достатку.

2. Надихнути фермерів, тваринників і виробників на застосування  нових технологій, бізнес-моделей та покращеної практики управління фермами.

3. Створити нові бізнес-моделі, щоб допомагати  нашим клієнтам та розвивати наш бізнес.

Те, що розпочалося як бачення однієї компанії, стало закликом до співпраці.

«Планета достатку» – це бачення обіцянки, можливості та позитиву на майбутнє. Ми віримо в те, що світ достатку досяжний, але це потребуватиме спільної роботи всіх нас. 

Це бачення, яке мають очолити наука, технології та спільна воля змінити ситуацію, – саджати дерева, знаючи, що ми ніколи не побачимо, як вони ростуть.

Сталий розвиток означає вживати позитивних дій сьогодні для успіху завтрашнього дня. Це заняття, в якому завжди є місце для вдосконалення… і нової ідеї.

Відвідайте веб-сайт «Планета достатку» (Planet of Plenty) та приєднуйтесь до нас у цій подорожі.

 

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The importance of modern aquaculture for food security

Submitted by lkilian on Mon, 08/09/2021 - 04:54

Modern aquaculture is changing and adapting rapidly. The sector is in its infancy compared to other areas of agriculture; however, this provides the opportunity to adjust quickly when necessary. Climate change is forcing the global food industry to find ways to be more sustainable, and the aquaculture industry has spent many years campaigning for change to ensure longevity and sustainability for future generations.  

It is necessary to look outside of our comfort zone to ensure that we are protecting our oceans and the aquatic species that live in them. At the same time, we must also provide food security for over 3 billion people who rely on seafood for their diet and employment and support its role in ending hunger and addressing malnutrition.

1. Protecting our oceans

In 2016, the National Academy of Science, USA, predicted 50% of stocks could be sustainable by 2050. The last decade has seen considerable developments in fishery management limits, species quotas and reduced bycatch through advances in fishing gear and technological equipment. NGOs such as the Marine Stewardship Council have worked tirelessly to improve this situation, and globally, there is amazing conservation work taking place to ensure that aquaculture and fisheries are becoming more sustainable.

Aquaculture is becoming more resource-efficient in terms of aquafeed, energy and water management. Indoor and land-based technologies are reducing water usage and gas emissions. By 2030, 62% of food fish will come from aquaculture (FAO). Sustainable aquaculture is part of the solution and will be the key to providing future generations access to healthy and sustainable protein options and employment opportunities.

This is the part where each of us, as individuals, plays a role in protecting our oceans. We have a responsibility, we all play a part in climate change and we need to work together if we are to influence current practices.

What can we do to support this?

  • We can support companies, stores and restaurants that use sustainably sourced fish and seafood.
  • We can research our choices to ensure we are choosing the most sustainable option to reduce environmental impact.

2. Fish in fish out (FIFO)

Modern aquaculture has seen a significant shift in the last decade in terms of nutrition. Marine ingredients in aquafeed still exist, but some aquafeeds are made free of any marine resources while still maintaining the health benefits associated with omega 3 fatty acids and oils. The evolution of nutrition has allowed for the FIFO ratio to decrease significantly. The global FIFO factor for our industry is 0.27, which means we need 270 grams of wild-caught fish to produce 1 kilogram of farmed fish. This is calculated by dividing the fish caught for aquaculture feed production use by the farmed fish fed with these feeds. Looking at Alltech Coppens, the 2020 FIFO ratio was 0.10%, and 100% of the fishmeal sourced was from trimmings and/or certified.

3. Food security

The 2021 FAO cites the importance of seafood for ending hunger and addressing malnutrition, and fish remains critical for food and nutritional security in so many geographies across the world. To cut out eating fish entirely would wipe out some rural communities who rely on fishing for their livelihood and primary protein source.

Sustainable fishing must be implemented and promoted; fish stocks can recover and replenish when carefully managed for the long term. One of the greatest challenges we face in agriculture is to produce enough food for the increasing population while ensuring a plentiful and sustainable environment for future generations. Our population is growing exponentially, and we cannot continue to produce proteins in an unsustainable manner. This is not a new learning; both the agriculture and aquaculture industries have recognized this, and significant innovations and developments have been made over the past decade. Years of research have been invested in ensuring minimal impact on surrounding environments. Sustainable aquaculture is part of the solution, not the problem, with 62% of food fish coming from aquaculture by 2030 (FAO). This will be the key to providing future generations access to healthy and sustainable protein options and employment opportunities.

As an industry, we have been campaigning and will continue to campaign for change for many years on some of the industry’s most important challenges. It is now up to each of us to educate ourselves and our communities to make the most sustainable food choices. We must take part for the change to have an impact.

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